Czech Republic (the)
Visit course webpageProject summary
Together with our international partners, we develop numerical tools based on optimal control theory to design experimental techniques with improved performance for magnetic resonance. We focus on applications to solid-state nuclear magnetic resonance (NMR) of biomolecules such as proteins and amyloids. We work to exploit the emerging expertise and technology of ultrafast magic-angle-spinning (MAS) solid-state NMR spectroscopy at high magnetic fields and to streamline its application for daily structural biology routines in academic and industrial settings.
Optimal control allows one to develop completely new magnetization transfer experiments and strategies that are not achievable by any known pulse sequences. An example is heteronuclear transverse magnetization transfer that yields a sensitivity enhancement factor of 1.4 for every indirectly sampled dimension of multidimensional spectra. [1] This possibility of capturing both components of complex data (real and imaginary components) at the same time has revolutionized the prospects of high-dimensional solid-state NMR, shortening the experimental time of a 5D from months to a couple of days. Such high-dimensional spectra are essential for resolving spectral overlap and for obtaining unambiguous assignments of complex protein systems.
This PhD project will concentrate on further development of numerical methods and their implementation in the SIMPSON software package. [2] New pulse sequences for tailored magnetization transfers for ultrafast MAS proton detected high-dimensional spectroscopy will be developed. The project will be conducted in close collaboration with the Technical University of Munich (bio-solid-state NMR) and Aarhus University (SIMPSON), which are both equipped with the latest instrumentation necessary for experimental verification.
The ideal candidate should have programming and mathematical skills and basic knowledge of solid-state NMR.
Learn more about Optimal Control in Design of Magnetic Resonance Experiments, PhD - at Faculty of Science, Charles University
Visit course webpageContact Faculty of Science, Charles University to find course entry requirements.
This text facilitates quick navigation of the various types of scholarships but does not provide a full list of rules and policies regulating this field. The granting and payments of scholarships is governed primarily by the Scholarships and Bursaries Rules of Charles University (cuni.cz/UKEN-727.html), the Rules for Granting Scholarships at FSc, and the relevant measures issued by the Dean (natur.cuni.cz/fakulta/studium/bc-nmgr/predpisy-a-poplatky/stipendia; Czech only).
Students may obtain the following scholarships:
Certain scholarships are granted to students automatically (without student applications), whereas others are granted further to an application (electronic or paper, depending on the type of scholarship). Bursaries are neither taxed nor included in stated income. You can find answers to frequently asked questions regarding scholarships on the Faculty website (natur.cuni.cz/fakulta/studium/helpdesk/faq-stipendia; Czech only).
For more information check our dedicated website.
There are 136 other courses listed from Faculty of Science, Charles University. A selection of these are displayed below:
A postdoctoral position to study thermal effects in landslides Postdoc
Faculty of Science, Charles University
Find out moreActivation of STING signaling in tumors associated with human papillomaviruses PhD
Faculty of Science, Charles University
Find out moreAdvanced Electron Microscopy Techniques for the Characterization of Tunable Zeolitic Architectures PhD
Faculty of Science, Charles University
Find out moreAmphiphilic Peptidomimetics Containing Metallacarboranes as a Design Strategy for Future Antibiotics PhD
Faculty of Science, Charles University
Find out moreSee other universities in Prague
Find out more about studying in Czech Republic (the)